Analyses / Impact Analysis / 119 · HR 5617 Impact Analysis

119-HR-5617 Investigative Journalist Impact Analysis

119 · HR 5617 Geothermal Gold Book Development Act

Bottom-line assessment
Overall stance based on evidence to date.
BLM-managed geothermal capacity
2.6GW
Operating plants on BLM lands
51plants
Potential capacity by 2050 (GeoVision)
60GW
Power-sector CO2 offset by 2050
500MMT
Published
22 May 2026
Updated
22 May 2026
Tags
Impact analysis · Geothermal · Federal lands
Unvetted
01 · Section

Summary

- Purpose: Directs DOI to identify and publish standardized procedures for geothermal leasing and permits on federal lands by updating and renaming BLM’s “Gold Book.” The current Gold Book (2007) is guidance for oil and gas operations; adding geothermal procedures would aim to harmonize expectations across field offices. [1]BLM — The Gold Book | Bureau of Land Management - Why it matters: Federal lands host most U.S. geothermal generation. Clear, consistent procedures can lower transaction costs and timelines that today vary from months to years depending on site‑specific NEPA issues. [2]BLM — Geothermal Energy | Bureau of Land Management - Headline impacts: Potential acceleration of low‑GHG, dispatchable power (median life‑cycle emissions often tens of gCO2e/kWh), with environmental risks—water sourcing, H2S, habitat disturbance, and induced seismicity—manageable with best practices and monitoring. [3]NREL — Systematic Review of Life Cycle Greenhouse Gas Emissions from Geothermal…

02 · Section

Economic Effects

Likely effects on investment, costs, revenues, and jobs if standardized geothermal procedures are published and adopted.

  • Deployment signal: A DOI‑issued, geothermal‑specific Gold Book would clarify expectations for exploration, drilling, utilization, and compliance—reducing soft costs tied to inconsistent field‑office practices. This could complement recent federal steps (e.g., adopted categorical exclusions for some exploration) that aim to trim timelines. [1]BLM — The Gold Book | Bureau of Land Management
  • Capacity and reliability upside: DOE’s GeoVision finds technical/market pathways to ~60 GW of geothermal electricity by 2050 (potentially higher with technology gains), adding firm, flexible capacity that supports grid reliability. Standardized permitting can ease non‑technical barriers to reaching those pathways. [4]U.S. DOE Office of Geothermal — GeoVision | Department of Energy
  • Current federal‑lands base: BLM reports 51 operating plants on BLM‑managed lands totaling >2.6 GW—indicating substantial near‑term opportunity where leasing/permitting clarity matters most. [2]BLM — Geothermal Energy | Bureau of Land Management
  • Permitting timelines today: DOE notes geothermal permitting on federal land can range from ~6 months to several years depending on biological/cultural sensitivities and project scope; clearer SOPs could reduce rework but will still be bounded by NEPA. [5]U.S. DOE Office of Geothermal — Permitting for Geothermal Power Development Pro…
  • Costs and market momentum: The 2025 U.S. Geothermal Market Report shows renewed procurement (e.g., new PPAs) and charts current LCOE ranges for conventional plants; predictable permitting helps translate this pipeline into financed projects. [6]NREL — 2025 U.S. Geothermal Market Report | NREL
  • Royalty and local receipts: Federal geothermal royalties and rents are shared—50% to states, 25% to counties—providing local fiscal upside; BLM reports roughly $12 million/year in federal geothermal royalties in recent fact sheets. [7]BLM — BLM Geothermal Fact Sheet (royalties and revenue sharing)
  • Jobs: GeoVision’s Impacts analysis indicates geothermal build‑out yields substantial construction and long‑term O&M employment, with O&M jobs concentrated locally; guidance that reduces delays can shift such employment earlier in time. [8]nrel.gov
03 · Section

Social Effects

Community distributional effects, procedural justice, and public‑land use conflicts.

  • Tribal consultation: BLM must consult tribes under NHPA Section 106 and BLM Manual/H‑Handbook 1780/8120 series; standardized geothermal procedures must integrate—not shortcut—these duties. [9]BLM — BLM H-1780-1 – Improving and Sustaining BLM‑Tribal Relations
  • Public participation and cultural resources: The 2008 Geothermal Programmatic EIS outlines potential effects on cultural resources and access; updated field SOPs can embed early outreach, survey standards, and avoidance/mitigation templates. [10]BLM — Final Programmatic EIS for Geothermal Leasing in the Western U.S.
  • Local employment: GeoVision’s Impacts report finds geothermal has relatively high long‑term O&M employment per unit of generation, with wages circulating locally; predictable permitting can improve planning for workforce pipelines. [8]nrel.gov
  • Use‑conflict management: Standardized siting and construction practices (roads, pads, noise, visual mitigation) can reduce conflicts with recreation, grazing, and other land uses when applied consistently across field offices. [10]BLM — Final Programmatic EIS for Geothermal Leasing in the Western U.S.
04 · Section

Environmental Effects

Primary environmental pathways and documented risk/benefit profile for geothermal on federal lands.

  • GHG profile: NREL’s systematic review reports median life‑cycle GHG intensities around 11–47 gCO2e/kWh depending on technology (HT binary ≈11; EGS binary ≈32; HT flash ≈47)—well below fossil benchmarks. [3]NREL — Systematic Review of Life Cycle Greenhouse Gas Emissions from Geothermal…
  • Air quality co‑benefits and controls: EIA notes geothermal emits small amounts of CO2 and SO2/H2S relative to fossil plants, with most facilities reinjecting fluids; recent federal EISs document H2S abatement methods (e.g., oxidation) where needed. [11]eia.gov
  • Water use: Argonne analyses indicate a wide range depending on plant/cooling—wet‑cooled flash plants averaging about 2–3 gal/kWh and air‑/dry‑cooled binary or EGS systems as low as ~0.04–0.7 gal/kWh; standardized water‑management SOPs are material in arid basins. [12]Argonne National Laboratory — Geothermal Water Consumption Factors (Argonne syn…
  • Land and habitat: The Programmatic EIS details surface disturbance, road building, and visual impacts, along with mitigation (revegetation, buffers, undergrounding lines) that a geothermal Gold Book could codify for consistency. [10]BLM — Final Programmatic EIS for Geothermal Leasing in the Western U.S.
  • Induced seismicity: USGS‑linked reviews and Basel’s 2006 EGS case show stimulation can trigger felt events; risk‑informed traffic‑light protocols, baseline monitoring, and siting away from sensitive faults are critical inclusions for any SOP. [13]USGS / Geothermics (2014) — Analysis of induced seismicity in geothermal reserv…
05 · Section

Temporal Analysis

Distinguishing immediate administrative effects from medium‑ and long‑term system impacts.

  1. Near term (0–2 years): DOI must draft and publish geothermal procedures, consult agencies and stakeholders, and train field offices. Benefits are primarily clarity and reduced applicant back‑and‑forth; major NEPA steps still govern timelines. [1]BLM — The Gold Book | Bureau of Land Management
  2. Medium term (2–5 years): As procedures normalize, projects benefit from clearer scoping and document expectations; in parallel, BLM’s adoption of categorical exclusions for some exploration could cut up to ~1 year off certain exploration permits, accelerating learning and de‑risking. [14]BLM — BLM takes steps to accelerate geothermal energy development
  3. Long term (5+ years): If paired with technology advances and sustained coordination, standardized permitting helps unlock DOE‑projected geothermal growth (≈60 GW by 2050) and large cumulative CO2 reductions, with continuing need for robust monitoring of water, H2S, and seismicity. [4]U.S. DOE Office of Geothermal — GeoVision | Department of Energy
06 · Section

Unintended Consequences and Risks

Credible second‑order effects to monitor under standardized geothermal procedures.

  • Checklist creep: Over‑standardization could encourage compliance box‑checking that misses site‑specific hydrology, wildlife corridors, or cultural landscapes; procedures should mandate early, place‑based surveys and adaptive conditions of approval. [10]BLM — Final Programmatic EIS for Geothermal Leasing in the Western U.S.
  • Water‑stress in arid basins: Even modest consumptive use can be material in closed basins; SOPs should prefer air/dry cooling or geothermal‑fluid cooling and require make‑up water accounting and monitoring. [12]Argonne National Laboratory — Geothermal Water Consumption Factors (Argonne syn…
  • Non‑condensable gases/H2S: Upset conditions can elevate emissions; SOPs should require abatement readiness, ambient monitoring plans, and incident reporting. [16]BLM — Haiwee Geothermal Leasing Area Final EIS (excerpt: H2S abatement)
  • Induced seismicity and public acceptance: Traffic‑light systems, transparent data sharing, and siting buffers are essential to avoid Basel‑type reputational setbacks. [17]MDPI Sustainability (2019) — Thermo‑Poroelastic Analysis of Induced Seismicity…
  • Process risk: If geothermal SOPs are not integrated with tribal consultation protocols (BLM Manual/H‑Handbook) and NHPA compliance, projects risk delay or litigation. [9]BLM — BLM H-1780-1 – Improving and Sustaining BLM‑Tribal Relations
07 · Section

Assessment

Overall stance based on evidence to date.

Neutral-to-favorable. Standardized geothermal procedures in an updated Gold Book are likely to lower uncertainty and marginal permitting costs, reinforcing federal efforts to streamline low‑impact exploration and enabling deployment of firm, low‑GHG power. Environmental and cultural‑resource risks are real but well‑characterized, with mitigation frameworks already documented in federal analyses; effective implementation will determine whether benefits are realized without eroding safeguards. [14]BLM — BLM takes steps to accelerate geothermal energy development

08 · Section

Key Metrics

Selected quantitative anchors that frame the likely impact space.

BLM-managed geothermal capacity
2.6GW
Operating plants on BLM lands
51plants
Potential capacity by 2050 (GeoVision)
60GW
Power-sector CO2 offset by 2050
500MMT
Royalty share to states
50%
Annual federal geothermal royalties
12M USD
GHG intensity (HT binary, median)
11.3gCO2e/kWh
GHG intensity (EGS binary, median)
32gCO2e/kWh
GHG intensity (HT flash, median)
47gCO2e/kWh
Water consumption (wet‑cooled flash)
2.7gal/kWh
Water consumption (dry/air‑cooled binary/EGS)
0.04gal/kWh
09 · Section

Sourcing

Citations are embedded inline after the relevant claims. Sources emphasize primary federal documents, national laboratories, and peer‑reviewed research. No advocacy sources were relied upon.

Sources cited
  1. [1] The Gold Book | Bureau of Land Management BLM
  2. [2] Geothermal Energy | Bureau of Land Management BLM
  3. [3] Systematic Review of Life Cycle Greenhouse Gas Emissions from Geothermal Electricity (NREL Technical Report) NREL
  4. [4] GeoVision | Department of Energy U.S. DOE Office of Geothermal
  5. [5] Permitting for Geothermal Power Development Projects | Department of Energy U.S. DOE Office of Geothermal
  6. [6] 2025 U.S. Geothermal Market Report | NREL NREL
  7. [7] BLM Geothermal Fact Sheet (royalties and revenue sharing) BLM
  8. [8] nrel.gov
  9. [9] BLM H-1780-1 – Improving and Sustaining BLM‑Tribal Relations BLM
  10. [10] Final Programmatic EIS for Geothermal Leasing in the Western U.S. BLM
  11. [11] eia.gov
  12. [12] Geothermal Water Consumption Factors (Argonne synthesis, 2015) Argonne National Laboratory
  13. [13] Analysis of induced seismicity in geothermal reservoirs – overview (USGS link) USGS / Geothermics (2014)
  14. [14] BLM takes steps to accelerate geothermal energy development BLM
  15. [15] CEQ NEPA EIS Timelines (agencywide statistics) Council on Environmental Quality
  16. [16] Haiwee Geothermal Leasing Area Final EIS (excerpt: H2S abatement) BLM
  17. [17] Thermo‑Poroelastic Analysis of Induced Seismicity at the Basel EGS MDPI Sustainability (2019)

Discussion